Gas burial disposal capsules

ABSTRACT

The water aeration capsules provide a quick and highly portable system for aerating polluted water. The capsules contain bubbles of air, oxygen, and/or other gas(es) surrounded by a water soluble membrane. The capsules are ballasted to sink. Magnetically attractive ballast elements may be provided, and a magnetic sheet may be placed on the bottom of a smaller body of water to enhance the settling of the capsules. The gas burial disposal capsules may be formed of non-degradable material for substantially permanent gas storage, or of degradable material to allow the gases to slowly permeate the surrounding earth for slow and relatively harmless release. The gas may be pressurized within the capsules to approximately the pressure of the surrounding earth.

CROSS-REFERENCE TO RELATED APPLICATIONS

This is a continuation of my prior application Ser. No. 13/297,080,filed Nov. 15, 2011 now pending, which is a continuation in part of U.S.patent application Ser. No. 13/219,561, filed on Aug. 26, 2011.

BACKGROUND OF THE INVENTION

1. Field of the Invention

The present invention relates generally to water treatment and gasdisposal systems, and particularly to various embodiments of wateraeration capsules and gas burial disposal capsules and dispensing meanstherefor.

2. Description of the Related Art

The contamination of various bodies of water by various means is anincreasingly serious problem worldwide. Perhaps the most widespreadcontaminants are organic materials that enter the water system due topollution from human habitation either directly or indirectly, e.g.,pollution from farms and the like. Such pollution can affect inlandfresh water supplies (lakes and rivers), and can also be carried to thesea by inland rivers and waterways or by direct discharge of sewageand/or other pollutants into the sea. Organic material in the sewage oftreatment plants is another example of such pollution, albeit containedfor processing. The biochemical processes that occur in water due tosuch organic pollution are well known to decrease the oxygen content ofthe water, thereby reducing or perhaps even destroying fish and otheraquatic life in the contaminated body of water. Even if some fish remainin the polluted water, they are almost certainly unfit for humanconsumption if caught.

It is generally considered that the most effective means of eliminatingsuch pollutants in contaminated water is by bacteriological processing,wherein bacteria process the contaminants to break them down intoharmless organic materials. However, such bacteria are aerobic, i.e.,they require oxygen for their metabolism. This is well known in thesewage treatment field, where water is commonly treated by aerationafter solids are removed by settling or other means. Such aeration isgenerally accomplished by mechanical means, e.g., pumping the water upfor dispensing into the air from spray booms and nozzles, or perhaps byforcing air through underwater pipes for the air to bubble up throughthe water. Such mechanical systems are relatively costly to operate andrequire relatively high energy and manpower costs. Even if such systemswere less costly to operate, a huge drawback is that they cannot bereadily transported to a pollution site for operation at that site.Rather, the water must be transported to the location of the aerationsystem, a process that is clearly unworkable on a very large scaleand/or over very long distances.

In addition to the above problems relating primarily to the aquatic andmarine environments, numerous gases are formed as a result of variousindustrial processes. Many of these gases are released into theatmosphere where they create various environmental problems, e.g.,respiratory difficulties for many people, damage to the natural andman-made environment, etc. Neutralizing or destroying many of theseunwanted and hazardous gases is often quite difficult, and in some cases{e.g., burning or oxidizing the gases) may result in even more hazardousand/or undesirable gases as an end result or as a byproduct.

Thus, gas burial disposal capsules solving the aforementioned problemsare desired.

SUMMARY OF THE INVENTION

The present invention relates to capsules that may be used for wateraeration and to capsules that may be used for gas burial disposal(disposal of the gas by burying capsules enclosing the gas). The wateraeration capsules comprise several embodiments of water soluble capsulescontaining oxygen, air, and/or other gas(es) therein. The capsules maybe formed to have any practicable shape or configuration. The gasimpervious outer shell, skin, or membrane is formed of a water solublematerial, such as various salts, sugars, and/or water soluble polymers,e.g., various polyvinyl alcohols, and numerous other conventionalmaterials and substances. Regardless of the specific shape orconfiguration of the capsules and/or the material used to form the outershell or skin, all of the capsules include some form of ballastmaterial, resulting in the capsules having negative net buoyancy, i.e.,a capsule specific gravity greater than one. The ballast material maycomprise any of a number of different materials, so long as the specificgravity of the ballast material is greater than one. Examples of suchballast material are various non-toxic metals, sand, clay, and/or fishbait or other food for aquatic animals. The use of such aquatic animalfood as ballast provides a twofold benefit for the capsules, in that (1)it causes the capsules to sink, and (2) provides nutrition for aquaticanimal life in the treated body of water, once the capsules havedissolved.

Various means for dispensing the capsules, or enhancing theirdispensing, are also disclosed herein. At least one embodiment comprisesmagnetically attractive ballast elements in the capsules, and a magneticplate, grid, or the like placed in the bottom of the body of water beingtreated. Such a system is well suited for use in smaller and shallowerponds, such as sewage treatment ponds or relatively small contaminatedbodies of open water. The magnetic sheet placed at the bottom of thepond during operation may be recovered after the aeration process hasbeen completed, thus also recovering the magnetically attractive ballastelements therewith. The capsules may be dispensed by any practicablemeans by a mobile carrier, e.g., one or more persons dispensing thecapsules by hand from the shore, a boat, or by underwater diving, orperhaps on a larger scale from a ship(s) or aircraft.

The gas burial disposal capsules comprise relatively small capsulesconfigured for burial beneath the surface of the ground, where theystore hazardous and/or undesirable gases to obviate atmosphericcontamination and pollution. The gas burial disposal capsules may beformed of non-degradable materials, such as corrosion-resistant (i.e.,“stainless”) steel or various plastics, to assure that the encapsulatedgas cannot escape for any foreseeable period of time. Alternatively, thegas burial capsules may be formed of degradable metal or plasticmaterials that allow the capsule walls to be breached after somepredetermined period of time, thereby allowing the encapsulated gas toslowly permeate the surrounding soil or earth, where its undesirableeffects are dissipated over a relatively long period of time. The gasburial disposal capsules may be pressurized with gas(es) and buried at adepth where the ambient pressure developed by the surrounding earth issubstantially the same as the pressure of the gas(es) within thecapsules, thereby permitting the capsule walls to be formed ofrelatively thin and fragile material(s).

These and other features of the present invention will become readilyapparent upon further review of the following specification anddrawings.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1A is a front view in section of a first embodiment of a wateraeration capsule according to the present invention, illustrating itsinternal structure.

FIG. 1B is a front view of the water aeration capsule of FIG. 1,illustrating its external structure.

FIG. 1C is a top perspective view of a second embodiment of a wateraeration capsule according to the present invention, illustrating itsexternal structure.

FIG. 1D is a perspective view of a third embodiment of a water aerationcapsule according to the present invention, illustrating its externalstructure.

FIG. 2 is an environmental elevation view of a plurality of magneticallyattractive water aeration capsules according to the present inventionbeing dispensed into a body of water having a magnetic plate at thebottom thereof, showing progressive dissolution of the capsules in thebody of water.

FIG. 3A is a diagrammatic environmental elevation view showing aplurality of water aeration capsules according to the present invention,contained within a remotely actuated dispensing device.

FIG. 3B is a diagrammatic elevation view of the dispensing device ofFIG. 3A, showing the release and dispersal of the water aerationcapsules from the opened dispensing device.

FIG. 4 is an environmental elevation view of a plurality of wateraeration capsules according to the present invention, disposed on analternative dispensing device and mobile carrier therefor.

FIG. 5 is an environmental elevation view showing the water aerationcapsules and dispensing device of FIG. 3A, and an alternative mobilecarrier.

FIG. 6 is an environmental elevation view showing the water aerationcapsules and dispensing device of FIG. 3A, and another alternativemobile carrier.

FIG. 7 is an environmental elevation view showing the water aerationcapsules and dispensing device of FIG. 4, and another alternative mobilecarrier.

FIG. 8 is an environmental elevation view showing a plurality of wateraeration capsules according to the present invention, anotheralternative dispensing device, and another alternative mobile carrier.

FIG. 9A is a front view in section of a first embodiment of a gas burialdisposal capsule according to the present invention, illustrating itsinternal structure.

FIG. 9B is a front view of the gas burial disposal capsule of FIG. 9A,illustrating its external structure.

FIG. 9C is a perspective view of a second embodiment of a gas burialdisposal capsule according to the present invention, illustrating itsexternal structure.

FIG. 9D is a perspective view of a third embodiment of a gas burialdisposal capsule according to the present invention, illustrating itsexternal structure.

FIG. 10 is an environmental elevation view in section showing thedispersal of a plurality of the gas burial disposal capsules accordingto the present invention in an underground pocket or deposit.

FIG. 11 is an environmental elevation view in section showing thedispersal of a plurality of the gas burial disposal capsules accordingto the present invention in an open pit, such as a landfill or the like.

Similar reference characters denote corresponding features consistentlythroughout the attached drawings.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

The water aeration capsules comprise several different configurations ofcapsules that are each adapted for treating a body of water with air,oxygen, and/or other gas(es). FIGS. 1A and 1B of the drawings provide afront view in section and a front view of a first embodiment of a wateraeration capsule 10 a, while FIGS. 1C and 1D illustrate alternativeembodiment capsules 10 b and 10 c. The only difference between thevarious capsules 10 a, 10 b, and 10 c is their shape or geometricconfiguration, the basic structure comprising a closed shell surroundingan internal volume containing a gas and a ballast weight or elementtherein, which is the same for all of the various configurations orembodiments of the capsule.

The capsule 10 a comprises a thin, closed water soluble shell, skin ormembrane 12 a, defining a gas-filled internal volume 14 a. A ballastelement 16 a is placed within the internal volume, the ballast elementhaving sufficient mass to result in a collective specific gravitygreater than one for the entire capsule 10 a and its gas-filledinterior, i.e., the capsule 10 a will sink when dropped into a body ofwater. The corresponding water aeration capsules 10 b of FIG. 1C and 10c of FIG. 1D have substantially the same structure, differing only intheir geometric shapes. The capsule 101) of FIG. 1C includes a shell,skin, or membrane 12 b enclosing a gas-filled volume 14 b and a ballastelement 16 b, while the capsule 10 c of FIG. 1D includes a shell, skin,or membrane 12 c enclosing a gas-filled volume 14 c and a ballastelement 16 c. The shapes of the various water aeration capsules 10 athrough 10 c are exemplary, and it should be understood that virtuallyany practicable shape may be used to form such a water aeration capsule.

The capsule shell, skin or membrane 12 a (or 12 b, 12 c for the capsules10 b, 10 c of FIGS. 1C, 1D) may be formed of any suitable water solublematerial that is substantially impervious to the gas contained thereinuntil dissolved in water. Various salts, sugars, and/or water solublepolymers, such as polyvinyl alcohol or the like, may be used to form theouter shell or skin 12 a. All of these substances are conventional, andaccordingly no further disclosure need be provided. It should beunderstood that the above-listed materials for forming the shell ormembrane 12 a of the capsule 10 a are exemplary, and other suitableconventional water soluble materials may be used in lieu thereof. Thecapsule shell, membrane or skin may be flexible or brittle, dependingupon the material(s) used. If brittle materials are used, the shell maybreak or be crushed by water pressure at relatively deep levels, butthis is certainly acceptable as it will release the air or other gascontained therein, the broken portions of the shell dissolving later.Generally, the capsule membrane, skin, or shell has insufficientstrength to contain air or gas at much higher than ambient pressure, butthe air or gas may be placed within the capsule at somewhat higher thanambient pressure (i.e., a pressurized capsule), if the shell, skin ormembrane has sufficient strength.

The intended purpose of the water aeration capsule 10 a, and othercapsule embodiments, is to treat a body of contaminated or pollutedwater with oxygen in order to promote the growth of desirable bacteriathat, in turn, process the pollutants in the water, changing theprocessed pollutants to less harmful organic materials. Accordingly, apreferred gas with which the capsules 10 a (or 10 b, 10 c, etc.) may befilled is oxygen, but standard air (approximately 21% oxygen and 78%nitrogen, with traces of other gases) may be used economically. It willbe understood that the terms “aerate” and “aeration” as used herein areintended to describe the release of any practicable gas within a body ofwater by means of the aeration capsules described herein. Other gases,e.g., carbon dioxide, pure nitrogen, hydrogen, and/or inert gases suchas helium, argon, and neon, may be used in lieu of or in addition tooxygen or air as desired for purposes other than oxygenating the water.The principle of encapsulating a gas and ballasting the capsule to causeit to sink in a body of water and then dissolve to release the gasremains the same for any gas contained in the capsule.

The ballast weight or element 16 a (or 16 b, 16 c, etc.) may be formedof any suitable material, so long as it provides sufficient mass tocause its respective capsule to sink in a body of water. The ballastelement may be made from very common and inexpensive materials, e.g., anon-toxic metal(s) such as iron, steel, copper, brass, etc., ornon-metallic materials, such as sand, clay, ceramic pellets or stone orgravel, etc. Another alternative is to use some form of food for aquaticanimals as the ballast means. Such an embodiment is illustrated in FIG.8 and discussed further below.

FIG. 2 provides an illustration of a water aeration capsule 10 d havingan alternative ballast weight or element 16 d therein formed of amagnetically attractive material, e.g., ferromagnetic iron, steel, etc.A container 18 containing water 20 therein, an aquarium or fish tank,includes a magnetically attractive sheet 22 in the bottom thereof. Themagnetically attractive sheet may be in the form of a plate, as shown,or a grid or thin sheet of material. The magnetically attractive sheet22 may be electromagnetically activated, if sufficient electricalinsulation is provided for the device. Otherwise, latent magnetism ofthe magnetized sheet 22 will suffice. The principle illustrated in FIG.2 may be applied to small natural or man-made bodies of water as well,with the beaker-like container 18 merely being exemplary as ademonstration of the principle.

The capsules 10 d may be deployed or dispensed into the water 20 in anyconventional manner. In the case of a small container of water, or evena relatively small pond or narrow body of water, the capsules 10d (andothers described herein) may be deployed by hand by personnel on shore.As the capsules 10 d and their magnetically attractive ballast elements16 d approach the bottom of the container 18 as they sink, theirmagnetic ballast elements 16 d are attracted to the magnetic plate orsheet 22 in the bottom of the container 18, thereby increasing the sinkrate of the capsules 10 d to better assure that the capsules will reachthe bottom of the container 18 before being breached and releasing thegas 24 contained therein. The magnetic sheet 22 may be recovered afterthe body of water 20 has been aerated, the magnetically attractiveballast elements 16 d clinging magnetically to the sheet 22 for recoveryand reuse.

FIGS. 3A and 3B illustrate an exemplary means of releasing a relativelylarge number of water aeration capsules in a larger body of water, e,g.,larger pond, lake, ocean, river, etc. A mobile carrier comprising aremotely openable container 26 is provided and filled with wateraeration capsules 10. (The generic reference numeral 10 will be used todesignate the water aeration capsules of FIGS. 3A through 7, as thecapsules 10 may be of any of the configurations illustrated in FIGS. 1Athrough 2, or any other desired configuration.) The container 26 may bea wire basket or the like, or may be formed of unbroken panels. It isnot necessary to protect the capsules 10 contained therein, as theintent is for them to dissolve in the water once they have beensubmerged. The mobile carrier or container 26 is lowered into the water20 on a rope, cable, chain, or other extended element 28, to the depthdesired. When the container 26 has reached the desired depth, the lowerdoors or panels 26 a may be opened remotely by conventional means, e.g.,a secondary mechanical rope, cable, or line, or via an electrical signalor radio signal to the appropriate conventional actuation mechanism onor in the container 26. When the doors or panels 26 a are opened, asshown in FIG. 3B, the capsules 10 are released to dissolve in the water20 to release their aeration gases.

FIG. 4 provides an illustration of another alternative means fordeploying the capsules 10 in the water 20. In this embodiment, themobile carrier comprises a stick, rod, or the like 30 suspended from afloat or buoy 32. (It will be seen that the container 26 of FIGS. 3A and3B may be suspended from the rod and float of FIG. 4, if desired.) Thecapsules 10 of FIG. 4 are not contained within an enclosure, but areadhesively secured to the stick or rod 30 and to one another by watersoluble adhesive, e.g., by wheat flour paste, etc. Alternatively, theymay be gathered on the stick or rod 30 by a porous fabric or wire meshor screen (not shown) surrounding the capsules. The stick or rod 30arrangement has the advantage of simplicity in that no remote actuationof container doors or the like is required for the release of thecapsules 10.

FIGS. 5 through 7 provide illustrations of various alternative means fordispensing or deploying the water aeration capsules 10 (or other capsuleembodiments 10 a, 10 b, etc.). In FIG. 5, a mobile carrier comprising aship 34 is used to lower a container 26 into the water 20 by means of arope, cable, or other line 28. The operation of the container 26 isessentially as described further above for the embodiment of FIGS. 3Aand 3B. In FIG. 6, a rotary wing aircraft, e.g., helicopter 36, is usedas the mobile carrier, and the aeration capsule container 26 and line 28are essentially the same as that shown in FIGS. 3A, 3B, and 5. It willbe recognized that a conventional fixed wing aircraft (not shown) may beused as the mobile carrier in lieu of the helicopter 36 of FIG. 6. InFIG. 7, a scuba diver 38 is used as the mobile carrier, along with therod or stick 30 and float or buoy 32 illustrated in FIG. 4. Such adeployment method might be desirable in certain bodies of water notaccessible by larger craft.

FIG. 8 illustrates yet another embodiment wherein a small boat 40 isused to position a float or buoy 32 having a plurality of water aerationcapsules 10 e suspended from the lower end of a cable, rope, or line 28.The capsules 10 e may be adhesively secured to a central carrier 42 bymeans of water soluble adhesive, as described further above for theembodiment of FIG. 4. The capsules 10 e are designated differently thanthe capsules 10 through 10 d of earlier described embodiments, as theyutilize an aquatic animal food for their ballast elements. Initially,fish F and other forms of aquatic animal life will not be attracted tothe capsules 10 e until they are breached to release their aquaticanimal food ballast. However, once at least some of the capsules 10 eare breached in some manner (dissolution in the water, fracturing underpressure, etc.), the scent of the aquatic animal food ballast will bereleased, thereby attracting fish F and/or other forms of aquatic animallife as may be present. Thus, the capsules 10 e provide the twofoldfunction of aerating the water and also providing nutrition for anyaquatic animal life that may be present when the capsules 10 e arebreached, both of these functions benefiting the population of aquaticanimal life in the area.

FIGS. 9A through 11 illustrate several embodiments of gas burialdisposal capsules adapted for burying waste gases in the ground. FIGS.9A and 9B of the drawings respectively provide a front view in sectionand a front view of a first embodiment of a small gas burial disposalcapsule 110 a, while FIGS. 9C and 9D illustrate alternative embodimentcapsules 110 b and 110 e. The only difference between the variouscapsules 110 a, 110 b, and 110 e is their shape or geometricconfiguration, the basic structure comprising a closed shell surroundingan internal volume containing a gas, which is the same for all of thevarious configurations or embodiments of the capsule. The capsules intheir various embodiments are preferably relatively small, e.g., on theorder of an inch or less in diameter or length in order to facilitatetheir placement underground using various means, the volume of thecapsules being substantially less than one liter.

The capsule 110 a comprises a thin, closed shell 112 a defining agas-filled internal volume 114 a. The corresponding gas burial disposalcapsules 110 b of FIG. 9C and 110 c of FIG. 9D have substantially thesame structure, differing only in their geometric shapes. The capsule110 b of FIG. 9C includes a shell 112 b enclosing a gas-filled volume114 b, while the capsule 110 c of FIG. 9D includes a shell 112 cenclosing a gas-filled volume 114 c. The shapes of the various gasburial disposal capsules 110 a through 110 c are exemplary, and itshould be understood that virtually any practicable shape may be used toform such a gas burial disposal capsule.

The capsule shell 112 a (or 112 b, 112 c for the capsules 110 b, 110 cof FIGS. 9C, 9D) may be formed of any suitable material, depending uponthe ultimate intended disposition of the gases encapsulated within theshell(s). In many instances, it may be desirable to seal the gaseswithin the capsules for a substantially indefinite period, preventingtheir escape for the foreseeable future. Accordingly, the capsule shells112 a, 112 b, 112 e, etc. may be formed of a substantiallynon-degradable material, such as corrosion-resistant steel (i.e.,“stainless” steel) or a non-degradable plastic. Alternatively, it may bedesirable that the capsule shells degrade over some approximate periodof time, e.g., on the order of a year, or perhaps ten years or acentury, etc. Accordingly, the capsule shells may be formed of adegradable metal, plastic, or other material, e.g., mild steel that willeventually rust through, or aluminum that is subject to slow corrosiveeffects, etc. Various degradable plastics may also be used.

The gas burial disposal capsules 110 a, 110 b, etc., are intended to beburied at some depth below the surface. It is well known that the weightof the overlying earth results in great subterranean pressures.Accordingly, gas or gases may be introduced into the capsule shells at apressure at least approximately corresponding to the pressure at theanticipated depth for burial of the capsules. This results in theinternal and external pressures substantially canceling one another,thereby relieving stress on the shells 112 a, etc. of the capsules andprecluding their being crushed by the subterranean pressures at thedepth at which they are buried. The capsules may be placed in apressurized environment as they are filled, and may be kept in such apressurized environment until buried underground in order to minimizedifferential pressure stresses on the shells of the capsules.

FIGS. 10 and 11 illustrate different means of burying the gas burialdisposal capsules of the present invention. In FIG. 10 the capsules,e.g., capsules 110 a, although they may comprise any gas burial disposalcapsule described above., are shown being pumped by a surface pump 116through a shaft 118 or the like into a subterranean cavity or pocket120. The subterranean cavity 120 may comprise a depleted oil or gasdeposit or other natural or artificial subterranean cavity. Suchsubterranean cavities provide an excellent location for the dispersal ofthe capsules, as they are generally far underground and the singlerelatively small diameter shaft 118 facilitates the sealing of thecapsules deep underground where they are rendered essentially harmless.Even the slow degradation of the capsules, where degradable capsuleshells are used, will result in the gases slowly dissipating in thesubterranean environment and slowly dispersing over a period of manyyears, if not centuries.

FIG. 11 illustrates an alternative method of burying the gas burialdisposal capsules of the present invention. In FIG. 11, a burial pit 122has been formed, e.g., in a landfill or other disposal area. Thecapsules, e.g., capsules 110 a, or alternatively, other gas burialdisposal capsules described above, have been placed within the pit 122at some level below the surface. Overburden or fill 124 is then placedover the capsules 110 a (or other capsules) to bury them below thesurface where they are rendered essentially harmless, particularly wherethe capsule shells are formed of substantially non-degradable metal,plastic, or other material.

It is to be understood that the present invention is not limited to theembodiments described above, but encompasses any and all embodimentswithin the scope of the following claims.

1. Gas burial disposal capsules for disposing of a volume of undesirablegas, each of the capsules comprising: a small, thin, permanently sealed,substantially non-degradable shell defining an internal volume, theshell being adapted for permanent burial in the ground; and a waste gasdisposed within the internal volume of the shell.
 2. The gas burialdisposal capsules according to claim 1, wherein the gas is disposedwithin the shell at a predetermined pressure, the pressure being atleast substantially equal to the subterranean pressure developed at thedepth at which the shell is buried.
 3. The gas burial disposal capsulesaccording to claim 1 wherein the shell is formed of corrosion-resistantsteel.
 4. The gas burial disposal capsules according to claim 1 whereinthe shell is formed of plastic.
 5. A method of disposing of waste gasesusing the gas burial disposal capsules of claim 1, comprising the stepsof: (a) providing a plurality of small gas burial disposal capsules,each of the capsules having a shell containing a volume of gas sealedtherein; and (b) disposing of the capsules beneath the ground.
 6. Themethod of disposing of waste gases according to the method of claim 5,wherein the step of disposing of the capsules beneath the ground furthercomprises the step of pumping the capsules into a subterranean cavity.7. The method of disposing of waste gases according to the method ofclaim 5, wherein the step of disposing of the capsules beneath theground further comprises the steps of: (a) providing a burial pit in thesurface of the earth; (b) placing the capsules in the pit; and (c)covering the capsules with earth.
 8. Gas burial disposal capsules fordisposing of a volume of undesirable gas, each of the capsulescomprising: a small, thin, sealed, degradable shell defining an internalvolume, the shell being adapted for permanent burial in the ground; anda waste gas disposed within the internal volume of the shell, the shellbeing adapted to release the gas disposed therein over a predeterminedperiod of time.
 9. The gas burial disposal capsules according to claim 8wherein the gas is disposed within the shell under a predeterminedpressure, the pressure being at least substantially equal to thesubterranean pressure developed at the depth at which the shell isburied.
 10. The gas burial disposal capsules according to claim 8wherein the shell is formed of metal.
 11. The gas burial disposalcapsules according to claim 8 wherein the shell is formed of plastic.12. A method of disposing of waste gases using the gas burial disposalcapsules of claim 8, comprising the steps of: (a) providing a pluralityof small gas burial disposal capsules, each of the capsules having ashell containing a volume of gas sealed therein; and (b) disposing ofthe capsules beneath the ground.
 13. The method of disposing of wastegases according to the method of claim 12, wherein the step of disposingof the capsules beneath the ground further comprises the step of pumpingthe capsules into a subterranean cavity.
 14. The method of disposing ofwaste gases according to the method of claim 12, wherein the step ofdisposing of the capsules beneath the ground further comprises the stepsof: (a) providing a burial pit in the surface of the earth; (b) placingthe capsules in the pit; and (c) covering the capsules with earth.
 15. Amethod of disposing of waste gas, comprising the steps of: encapsulatingthe gas in a plurality of capsules, each of the capsules having a volumeless than one liter; and burying the capsules belowground.
 16. Themethod of disposing of waste gas according to claim 15, wherein saidcapsules are degradable for slowly releasing the gas belowground. 17.The method of disposing of waste gas according to claim 15, wherein saidcapsules are non-degradable for permanent burial of the gas.
 18. Themethod of disposing of waste gas according to claim 15, wherein saidstep of encapsulating the gas comprises the step of filling the capsuleswith the waste gas to a pressure substantially equal to subterraneanpressure at a depth at which the capsules are buried.
 19. The method ofdisposing of waste gas according to claim 15, wherein said step ofburying the capsules comprises the step of pumping the capsules througha shaft extending into the ground to a desired depth.
 20. The method ofdisposing of waste gas according to claim 15, wherein said step ofburying the capsules comprises the steps of: dumping the capsules into apit; and filling the pit with soil.